In this paper, the total ionizing dose (TID) response of a commercial 28-nm high-k CMOS technology at ultrahigh doses is measured and discussed. The degradation of pMOSFETs depends not only on the channel width but also on the channel length. Short-channel pMOSFETs exhibit a higher TID tolerance compared to long ones. We attributed this effect to the presence of the halo implantations. For short-channel lengths, the drain halo can overlap the source one, increasing the average bulk doping along the channel. The higher bulk doping attenuates the radiation-induced degradation, improving the TID tolerance of short-channel transistors. The results are finally compared and discussed through technology computer-aided design simulations
The DC performance of both $n$- and $p$MOSFETs fabricated in a commercial-grade 28 nm bulk CMOS proc...
Summarization: Standard CMOS Process Design Kits (PDKs) do not address degradation the technology in...
Although Total Ionizing Dose (TID) effects are generally unpronounced in deep-submicron-CMOS, we sho...
In this paper, the total ionizing dose (TID) response of a commercial 28-nm high-k CMOS technology a...
Total ionizing dose (TID) mechanisms are investigated in 28-nm MOSFETs via dc static and low-frequen...
The effect of HALO dose on device parameter degradation of pMOSFET with 2.1 nm oxide and 0.135 ??m c...
This paper presents the results of an irradiation study on single transistors manufactured in a 28 n...
Total ionizing radiation may affect the electrical response of the electronic systems, inducing a va...
The radiation response of complementary metal- oxide-semiconductor (CMOS) gate oxides is typically i...
Summarization: Ten-fold radiation levels are expected in the upgrade of the High-Luminosity Large Ha...
Ten-fold radiation levels are expected in the upgrade of the High-Luminosity Large Hadron Collider (...
The Large Hadron Collider (LHC) running at CERN will soon be upgraded to increase its luminosity giv...
This article investigates the total ionizing dose (TID) degradation mechanisms of 16-nm bulk Si FinF...
Summarization: High doses of ionizing irradiation cause significant shifts in design parameters of s...
Total ionizing dose (TID) response of pMOS transistors featuring a commercial 65 nm CMOS technology ...
The DC performance of both $n$- and $p$MOSFETs fabricated in a commercial-grade 28 nm bulk CMOS proc...
Summarization: Standard CMOS Process Design Kits (PDKs) do not address degradation the technology in...
Although Total Ionizing Dose (TID) effects are generally unpronounced in deep-submicron-CMOS, we sho...
In this paper, the total ionizing dose (TID) response of a commercial 28-nm high-k CMOS technology a...
Total ionizing dose (TID) mechanisms are investigated in 28-nm MOSFETs via dc static and low-frequen...
The effect of HALO dose on device parameter degradation of pMOSFET with 2.1 nm oxide and 0.135 ??m c...
This paper presents the results of an irradiation study on single transistors manufactured in a 28 n...
Total ionizing radiation may affect the electrical response of the electronic systems, inducing a va...
The radiation response of complementary metal- oxide-semiconductor (CMOS) gate oxides is typically i...
Summarization: Ten-fold radiation levels are expected in the upgrade of the High-Luminosity Large Ha...
Ten-fold radiation levels are expected in the upgrade of the High-Luminosity Large Hadron Collider (...
The Large Hadron Collider (LHC) running at CERN will soon be upgraded to increase its luminosity giv...
This article investigates the total ionizing dose (TID) degradation mechanisms of 16-nm bulk Si FinF...
Summarization: High doses of ionizing irradiation cause significant shifts in design parameters of s...
Total ionizing dose (TID) response of pMOS transistors featuring a commercial 65 nm CMOS technology ...
The DC performance of both $n$- and $p$MOSFETs fabricated in a commercial-grade 28 nm bulk CMOS proc...
Summarization: Standard CMOS Process Design Kits (PDKs) do not address degradation the technology in...
Although Total Ionizing Dose (TID) effects are generally unpronounced in deep-submicron-CMOS, we sho...